All News
Logo

Notification Center

No messages!

Notification Center

No messages!

Categories

    • •All “Technologies” Subcategories
    • •Artificial Intelligence
    • •Cars
    • •Gadgets
    • •Internet
    • •New Energy
    • •Space
    • •All “Science” Subcategories
    • •Medicine & Biology
    • •History & Archeology
    • •Astronomy & Astrophysics
    • •Physics & Chemistry
    • •Sun
    • •Quantum physics
    • •Genetics
    • •All “Planet” Subcategories
    • •Animals
    • •Flora
    • •Discovery
    • •Oceans
    • •Unusual Phenomena
    • •Weather & Ecology
    • •Antarctica
    • •All “Society” Subcategories
    • •Records
    • •Art
    • •Music
    • •Gossip
    • •Fashion
    • •Architecture
    • •Films
    • •Disclosure
    • •Food & Kitchen
    • •All “Money” Subcategories
    • •Auctions
    • •Taxes
    • •Cryptocurrency
    • •Stock Market
    • •Companies
    • •Banks & Currency
    • •Showbiz
    • •All “World Events” Subcategories
    • •Summary
    • •International Organizations
    • •Breaking news
    • •Upcoming global events
    • •Summit Meetings
    • •Trump U.S.
    • •All “Human” Subcategories
    • •Consciousness
    • •Meow and woof
    • •Psychology
    • •Youth
    • •Education
    • •Trips
    • •Design
    • •Languages

Follow us

  • •Technologies
  • •Science
  • •Planet
  • •Society
  • •Money
  • •World Events
  • •Human

Share

  • •Medicine & Biology
  • •History & Archeology
  • •Astronomy & Astrophysics
  • •Physics & Chemistry
  • •Sun
  • •Quantum physics
  • •Genetics
  • About us
  • Terms of Use
  • Privacy Policy
  • Home
  • Science
  • Physics & Chemistry

Yale Researchers Discover Cellular 'Earthquakes' in Cytoskeleton Dynamics

08:15, 29 July

Edited by: Vera Mo

Yale University researchers have uncovered that the cell's cytoskeleton exhibits self-regulating behaviors similar to seismic activity. This discovery suggests that the cytoskeleton, responsible for maintaining cell structure, manages energy and information flow in a manner akin to the Earth's crust.

The study, published in Nature Physics, reveals that the cytoskeleton can undergo transitions in how it transmits signals and energy, a phenomenon reminiscent of Anderson localization observed in condensed matter physics. This indicates that cells utilize physical laws from non-living systems to process information through self-tuning mechanisms.

Understanding these internal 'earthquakes' could provide insights into the body's natural healing mechanisms and its ability to adapt to changes. The research opens avenues for advancements in medicine and materials science, potentially leading to new treatments and innovative materials.

Furthermore, the cytoskeleton's role in cell signaling influences how cells communicate and respond to their environment. This discovery encourages a holistic view of biological systems, where principles governing the smallest particles are mirrored in larger scales.

Sources

  • Tom's Hardware

  • Michael Murrell | Department of Physics

Read more news on this topic:

17 June

Global Leap in Timekeeping: Scientists Close In on Redefining the Second with Ultra-Precise Optical Clocks

27 May

Indian Researchers Discover New Method for Detecting Topological Invariants in Quantum Materials

16 May

China's Ustc Reveals Molecular Mechanism of Auxin Import in Plants, Paving Way for Enhanced Crop Development

Did you find an error or inaccuracy?

We will consider your comments as soon as possible.